For the feedback control system given in the figure on the right, R(s) + (a) Find the closed-loop transfer function, C(s)/R(s). (b) Determine the system's stability range for gain Kusing Routh-Hurwitz criterion. (c) What is the type of the system? (Hint: you need to convert the system to a simple unity feedback.) K 1 s(s+2)(s+5) S C(s) (d) Sketch the root-locus in Matlab (hint: you need to use the open-loop transfer function with K = 1) and validate the stability region you found in (b). (e) Plot the step responses up to 10 seconds for the input of 1.5u(t) when the gain K = 22 and has the value that makes the system marginally stable on the same plane. (f) Calculate the steady-state error for the input step of 1.5u(t) for K = 22. Confirm the result with the related plot you obtained in (e). (g) Calculate the steady-state error now for an input ramp of 1.5tu(t) for K = 22 and plot this response together with the input function up to 10 seconds in order to indicate the steady-state error you just computed.
For the feedback control system given in the figure on the right, R(s) + (a) Find the closed-loop transfer function, C(s)/R(s). (b) Determine the system's stability range for gain Kusing Routh-Hurwitz criterion. (c) What is the type of the system? (Hint: you need to convert the system to a simple unity feedback.) K 1 s(s+2)(s+5) S C(s) (d) Sketch the root-locus in Matlab (hint: you need to use the open-loop transfer function with K = 1) and validate the stability region you found in (b). (e) Plot the step responses up to 10 seconds for the input of 1.5u(t) when the gain K = 22 and has the value that makes the system marginally stable on the same plane. (f) Calculate the steady-state error for the input step of 1.5u(t) for K = 22. Confirm the result with the related plot you obtained in (e). (g) Calculate the steady-state error now for an input ramp of 1.5tu(t) for K = 22 and plot this response together with the input function up to 10 seconds in order to indicate the steady-state error you just computed.
Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
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solve only e,f,g and thank you
![For the feedback control system
given in the figure on the right,
anye
R(s) +
(a) Find the closed-loop transfer function,
C(s)/R(s).
(b) Determine the system's stability range for gain
Kusing Routh-Hurwitz criterion.
(c) What is the type of the system? (Hint: you need to
convert the system to a simple unity feedback.)
K
1
s(s+2)(s+5)
C(s)
(d) Sketch the root-locus in Matlab (hint: you need to use the open-loop transfer function with K = 1) and
validate the stability region you found in (b).
(e) Plot the step responses up to 10 seconds for the input of 1.5u(t) when the gain K = 22 and has the value that
makes the system marginally stable on the same plane.
(f) Calculate the steady-state error for the input step of 1.5u(t) for K = 22. Confirm the result with the related
plot you obtained in (e).
(g) Calculate the steady-state error now for an input ramp of 1.5tu(t) for K = 22 and plot this response together
with the input function up to 10 seconds in order to indicate the steady-state error you just computed.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F712cbc27-ec82-4d8d-bcc4-23f770b35ce1%2F980d5dab-65cd-408d-b7ef-bb74e16bffee%2Fzxfm7pe_processed.png&w=3840&q=75)
Transcribed Image Text:For the feedback control system
given in the figure on the right,
anye
R(s) +
(a) Find the closed-loop transfer function,
C(s)/R(s).
(b) Determine the system's stability range for gain
Kusing Routh-Hurwitz criterion.
(c) What is the type of the system? (Hint: you need to
convert the system to a simple unity feedback.)
K
1
s(s+2)(s+5)
C(s)
(d) Sketch the root-locus in Matlab (hint: you need to use the open-loop transfer function with K = 1) and
validate the stability region you found in (b).
(e) Plot the step responses up to 10 seconds for the input of 1.5u(t) when the gain K = 22 and has the value that
makes the system marginally stable on the same plane.
(f) Calculate the steady-state error for the input step of 1.5u(t) for K = 22. Confirm the result with the related
plot you obtained in (e).
(g) Calculate the steady-state error now for an input ramp of 1.5tu(t) for K = 22 and plot this response together
with the input function up to 10 seconds in order to indicate the steady-state error you just computed.
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